147 results about "Mercury-vapor lamp" patented technology

The invention provides a method for increasing the yield of natural cordyceps sinensis. The method comprises the following steps of (1) selecting a base for increasing the yield of natural cordyceps sinensis; (2) placing a trapping lamp; (3) preparing trapping liquid; (4) screening and preparing culture medium of hepialidae hirsutella sinensis and paecilomyces hepialid; and (5) controlling yield increase conditions. According to the method, at the adult stage, a high pressure mercury vapor lamp is used for trapping, so the imagoes of hepialus armoricanus around the lamp fly to the base, and the egg-laying amount is increased; ethanol, vinegar and sugar solution are sprayed on meadows beneficial to larva growth, so the larvae gather together; and the hepialidae hirsutella sinensis and the liquefied paecilomyces hepialid are sprayed on the gathering area of larvae to raise the infection rate of the larvae of hepialus armoricanus, so the aim of increasing the yield of cordyceps sinensis is achieved and the industrialized production is realized.

The invention relates to single-phase rare earth vanadium phosphate white fluorescent powder for the mercury lamp. The chemical formula of the fluorescent powder is M1nxM2xRE1-x-yPzV1-zO4:Dy3+y, wherein RE represents rare earth ion Y<3+>, La<3+>,Gd<3+> or Lu<3+>; M1 represents alkaline metal ion Li<+>, Na<+> or K<+>; M2 represents alkaline-earth metal ion Mg<2+>, Ca<2+>, Sr<2+> or Ba<2+>; and 0<=n<=4, 0<=x<=0.4, 0<=y<=0.3, and 0<=z<=1. The preparation method comprises the following steps: adopting the chemical co-precipitation method to dissolve raw materials with the corresponding negative ions and positive ions and generate precipitate, and washing, drying and calcining the precipitate in turn; or adopting the solid state reaction to fully mix and grinding raw materials, and calcining to obtain the single-phase fluorescent powder with the same crystalline structure of the matrix (RE(P,V)O4). By utilizing the co-sensitizing effect of alkali metal ions and alkaline earth metal ions, the luminous intensity of the fluorescent powder is increased.

The present invention relates to a printer, which uses a lamp with wavelength of below 300nm without almost emitting light as a light source, even though the electric force of the lamp is increased, any substrates will not distort due to being heated. An electric discharge lamp is a short arc type extra-high-pressure mercury vapor lamp in which a pair of electrodes is provided in an electric discharge container, wherein mercury of 0. 08-0. 30 mg/mm3, rare gas, and halogen are enclosed in the electric discharge container and a distance between electrodes is 0. 5-2. 0 mm, and the lamp contains a plurality of light of wavelength of 300 to 400 nm, but almost contains the light with wavelength below 300 nm. The electric discharge lamp extends along an optical axis of a reflector with a revolution paraboloid shape reflecting face wherein the pair of the electrodes are arranged so that a straight line formed by connecting the pair of electrodes, and the lights emitted from the lamp become parallel lights, wherein part of the lights are emitted from a light-emitting outlet directly, and the other part are emitted from the light-emitting outlet after the reflection of the reflector. A linear illumination area IA is formed on the substrate.

UV-curable ink formulations are provided that are capable of being cured under low-energy conditions, such as with a conventional mercury vapor lamp operating at half or less of the lamp's nominal wattage. Methods for forming a printed ink image on a substrate using the ink are also provided, which permit maintenance of relatively high line speeds while consuming less energy due to the use of lower-wattage lamp settings.

The invention discloses a man-machine coexisting ultraviolet lamp tube irradiation system for space upper layer air sterilization, which is characterized by comprising sterilization equipment arrangedon a closed or semi-closed space wall body, the sterilization equipment comprises a mercury lamp tube and an irradiation angle controller, and the mercury lamp tube is arranged in a parabolic reflecting lampshade; the irradiation angle controller drives the reflecting lampshade to rotate so as to adjust the irradiation angle of the mercury lamp tube. According to the sterilization equipment, theradiation angle is easy to adjust so as to provide radiation fields suitable for various ceiling heights, and the sterilization equipment can be suitable for places with high floor heights, such as fitness places, stadiums or indoor performance places. And the system can also be used for rooms with relatively low ceilings, such as elevators, public transport means, rooms, office buildings, halls and the like.

The invention discloses a double-mercury lamp spliced exposure system for lithography equipment. The double-mercury lamp spliced exposure system comprises a first light source and a second light source used for simultaneously or respectively providing illuminating beams; a first dodging component and a second dodging component which respectively correspond to the first light source and the second light source, a coupling lens group used for improving the illumination uniformity of the exposure system, and an illuminating and dodging component used for dodging emergent light of the coupling lens group to illuminate an illumination surface.

The invention provides a mercury vapor continuous monitoring device and monitoring method based on diode laser, belonging to the technical field of mercury vapor monitoring. The invention enables the problems that a conventional mercury vapor measuring system has a complex structure and real-time monitoring of mercury emission in conventional mercury vapor measuring is poor to be overcome. The monitoring device comprises a signal generator, a first laser diode controller, a second laser diode controller, a first laser diode, a second laser diode, a first reflector, a dichroic beam combiner, afirst convex lens, BBO crystals, a second convex lens, a beam splitter prism, a second reflector, a spectroscope, a sample cell, a reference cell, a first optical filter, a second optical filter, a first detector, a second detector and a data acquisition analyzer. According to the monitoring method, diode laser absorption spectroscopy is used to realize continuous monitoring of the concentration of mercury vapor, and spectral information of reference gas is utilized to realize selective identification and quantitative detection of gaseous elemental mercury, thereby eliminating interference brought by gas like sulfur dioxide and nitrogen dioxide. The monitoring device and the monitoring method provided in the invention are used for on-line monitoring of mercury vapor.

The present invention comprises a method of enhancing illumination by a variety of lamp types through the use of reflective technologies, for example, replacement of expensive high intensity density or mercury vapor lamps with low wattage flourescent tubes having at least one and in some cases, up to three reflective surfaces for focusing otherwise lost light toward a target illumination area. Further, the placement of light sources at the focal point of said reflective surfaces aids in optimizing the amount of light focused in a desired direction.

The invention discloses a mercury morphological analysis method based on liquid cathode discharge and a mercury vapor generating device. The method comprises: a mercury-containing sample solution is introduced into a chromatographic column of a liquid chromatograph; a discharge medium carrier flow passes through a sample introduction device and is introduced into a sample introduction capillary tube of a discharge pool with the effluence of the chromatographic column through a tee joint; by taking a metal electrode as an anode, and graphite, platinum or a stainless steel material as a cathode, liquid cathode discharging is carried out to generate vapor which is carried by a carrier gas into a gas-liquid separator; and finally the separated gas is detected by an atomic fluorescence spectrometer to obtain the morphology of mercury. Through the method provided by the invention, organic mercury and inorganic mercury in an object to be detected are effectively separated and detected; and the method has the advantages of small volume, low energy consumption, high mercury vapor generation efficiency and low matrix interference, is simple in operation and can be used for analyzing the morphology of mercury in a biological sample.

The invention discloses a method for simply preparing an N-type graphene field-effect tube. According to the method, oxidized graphene prepared by virtue of chemical oxidation is used as a raw material, an oxidized graphene sheet is used for forming a film on a substrate by spin coating, and then nitrogen doped graphene is obtained by virtue of illumination. A fluorinated graphene film can be illuminated at a regional position capable of being selected by laser light with the energy of 65-75mJ/cm<2> or a mercury vapor lamp in an atmosphere of NH3 gas of which the flow is 10-30torr, the illumination time is 5-60 minutes, and reduction and doping of nitrogen atoms are realized during illumination. The method disclosed by the invention is convenient to operate, low in cost and capable of realizing mass preparation, and the content of doped nitrogen, the conductivity of graphene and band gaps can be regulated and controlled and an effect of the N-type graphene field-effect tube can be realized by virtue of illumination time and intensity and the concentration of doped fluoride.

The invention belongs to the field of nanotechnology and analysis and provides a detection method of mercury element based on interference of silver nanoparticle formation. The method comprises the following steps of: adding fluorescein (FAM) labeled DNA into PBS buffer, mixing by vortexing; adding a silver nitrate solution into the above solution, mixing by vortexing, standing still to make silver ions act fully with DNA and to be adsorbed onto DNA; adding sodium borohydride into the above solution, reducing silver ions on DNA to form silver nanoparticles and quenching the fluorescence of fluorescein. According to the method, mercury ions are infused into the solution to act for a period of time before adding sodium borohydride, and then the silver and mercury ions generate dissociative silver amalgam under the reduction of sodium borohydride so as to reserve the fluorescence of fluorescein. Therefore, the method can be used to detect mercury ions and also can be used to detect mercury vapor simultaneously. The method for the detection of mercury element (ions and vapor) has advantages of simple operation, economy and practicality, high specificity, high sensitivity, great innovation and application prospect in other targets.

A compact self-ballasted fluorescent lamp includes a double-spiral arc tube and a holder. The holder has a tubular protrusion which is surrounded by the arc tube, at a center of its main surface. A closed end of the protrusion and a part of the arc tube facing the end of the protrusion are bonded together using a silicone adhesive. A part of a vertical printed circuit board that is used as a lighting circuit is housed within the protrusion.

The invention discloses a photolithographic illumination device using a mercury lamp light source. The photolithographic illumination device comprises the mercury lamp light source, a reflective bowl, a pupil reshaping device, a dodging device, a condensation system and a mercury lamp position adjusting device, wherein the reflective bowl is used for converging light energy of a mercury lamp; the pupil reshaping device is used for generating continuous and variable pupils and converting illumination modes; the dodging device is used for acquiring better illumination uniformity; and the mercury lamp position adjusting device is used for changing coherence factors of rays emitted by the mercury lamp light source by moving the position of the mercury lamp to acquire a required illumination field. Through the illumination device provided by the invention, the illumination modes and the illumination coherence factors can be simply converted by using fewer elements, and the elements do not need to be changed.

The present invention comprises a method of enhancing illumination by a variety of lamp types through the use of reflective technologies, for example, replacement of expensive high intensity density of mercury vapor lamps with low wattage fluorescent tubes having at least one and in some cases, up to three reflective surfaces for focusing otherwise lost light toward a target illumination area. Further, the placement of light sources at the focal point of said reflective surfaces aids in optimizing the amount of light focused in a desired direction.

The present invention provides a high-pressure discharge lamp 100 including a luminous bulb 10 enclosing at least a rare gas and halogen in the bulb and made substantially of quartz glass; and an electrode 12 made substantially of tungsten and disposed in the luminous bulb. The mole number of the halogen is larger than the sum of the total mole number of metal elements (except the tungsten element and the mercury element) that have the property of bonding to the halogen and are present in the luminous bulb 10 and the mole number of the tungsten present in the luminous bulb by evaporation from the electrode 12 during lamp operation.

A metal halide lamp of about 90% reduced mercury content with performance (efficacy, CCT, CRI) equivalent to a standard commercial metal halide lamp. The lamp comprises an arc shaped tube disposed within an outer jacket and including a fill of a metal halide and not more then about 2.7 mg mercury/cc of arc tube. The arc tube has an inner diameter to arc gap ratio of between about 0.10 and 0.16 and the wall loading of the reduced mercury lamp being equivalent to a standard metal halide lamp of about 20 W/cm2. The metal halide comprises Na and/or Sc iodides of various ratios depending on the color temperature desired, and a rare gas such as Xe, Kr, Ar in pressures of 10-300 torr dependent on the power loading and desired operating voltage of the lamp.

An ink jet ink that includes a photopolymerizable material, a pigment, and a liquid blend of (a) oligo [2-hydroxy-2-methyl-1-[4-(1-methylvinyl)phenyl]propanone](b) 4-methylbenzophenonone (c) 2,4,6-trimethylbenzophenone (d) 2,4,6-trimethylbenzoyldiphenylphosphine oxide, (e) phenyl-bis-(2,4,6-trimethylbenzoyl)phosphine oxide, and (f) 2-hydroxy-2-methyl-1-phenylpropanone can be cured by either a xenon flash lamp or a mercury vapor lamp, with excellent adhesion over vinyl substrates.

The invention provides a lithography illumination system which comprises a high-pressure mercury lamp, a coupled lens group, a quartz rod, a relay lens group and a mask plate, wherein light emitted from the mercury lamp is converged through the coupled lens group and forms uniform illuminating light in the quartz rod through repeated total reflection, and the illuminating light is amplified through the relay lens group and forms an illuminating view field with a certain numerical aperture, size and uniformity on the mask plate. The lithography illumination system is characterized in that the relay lens group is used for improving the illumination intensity of the edge field in the illuminating view field. Compared with the prior art, the lithography illumination system has the advantages that the illumination intensity of the edge field in the illuminating view field is improved, and the influence caused by the numerical aperture change of the mercury lamp is avoided, so that the mercury lamp light source and the whole illumination system have high practicality.